That means that multicast packets will be sent with a TTL of C<1> (one) on most
operating systems.
+=item B<MaxPacketSize> I<1024-65535>
+
+Set the maximum size for datagrams received over the network. Packets larger
+than this will be truncated.
+
=item B<Forward> I<true|false>
If set to I<true>, write packets that were received via the network plugin to
=head2 Plugin C<rrdcached>
-The C<rrdcached> plugin uses the RRDTool accelerator daemon, L<rrdcached(1)>,
+The C<rrdcached> plugin uses the RRDtool accelerator daemon, L<rrdcached(1)>,
to store values to RRD files in an efficient manner. The combination of the
C<rrdcached> B<plugin> and the C<rrdcached> B<daemon> is very similar to the
way the C<rrdtool> plugin works (see below). The added abstraction layer
You can use the settings B<StepSize>, B<HeartBeat>, B<RRARows>, and B<XFF> to
fine-tune your RRD-files. Please read L<rrdcreate(1)> if you encounter problems
-using these settings. If you don't want to dive into the depths of RRDTool, you
+using these settings. If you don't want to dive into the depths of RRDtool, you
can safely ignore these settings.
=over 4
"collection3" you'll end up with a responsive and fast system, up to date
graphs and basically a "backup" of your values every hour.
+ =item B<RandomTimeout> I<Seconds>
+
+ When set, the actual timeout for each value is chosen randomly between
+ I<CacheTimeout>-I<RandomTimeout> and I<CacheTimeout>+I<RandomTimeout>. The
+ intention is to avoid high load situations that appear when many values timeout
+ at the same time. This is especially a problem shortly after the daemon starts,
+ because all values were added to the internal cache at roughly the same time.
+
=back
=head2 Plugin C<sensors>